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1 Senior Lecturer at University of Malaysa. Email: [email protected] 145
PLANNING MALAYSIA:
Journal of the Malaysian Institute of Planners
SPECIAL ISSUE V (2016), Page 145 - 156
PREFERENCES OF STUDENT RESIDENTS TOWARDS
SUSTAINABILITY WITH THE CONCEPT OF BIOCLIMATIC DESIGN
Adi Ainurzaman Jamaludin1, Hazreena Hussein2, Nila Keumala3 & Ati Rosemary
Mohd Ariffin4
1Institute of Biological Sciences
Faculty of Science
UNIVERSITI OF MALAYA
2Centre for Sustainable Urban Planning & Real Estate
3,4Centre for Building, Construction & Tropical Architecture
Faculty of Built Environment
UNIVERSITI OF MALAYA
Abstract
A satisfaction and perception survey was carried out at a residential college
building in Kuala Lumpur. It was acknowledged as an energy efficient building
due to the most considerate implementation of bioclimatic design concept.
Currently, there is no specific preference studies were done in this type of
building in the equatorial climate region. 266 respondents were received, relying
on 95% confidence level and ±5% margin of error from the overall population.
The satisfaction and perception levels of residents are found to be positive with
the concept of bioclimatic design. A majority of them are at a comfort level in all
performance indicators including the internal courtyard, thermal comfort and
indoor air quality, day lighting and landscape features, which contributed to the
increased work productivity. Indirectly, it shows that the bioclimatic design
concept at an old residential building is still appropriate to meet the needs of
contemporary life while increasing the efficiency of electricity usage.
Nevertheless, the positions of the rooms should be highly considered in
implementing the improvement measures for increasing the comfort level of the
room when this aspect, rather than the gender aspect, considerably influences the
satisfaction and perception levels of respondents.
Keyword: Bioclimatic design, internal courtyard, post occupancy evaluation,
residential, sustainable.
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 146
INTRODUCTION
Sustainable development has led to a number of concept and approaches to
designing buildings that assist in reducing pollution and resource consumption
(Hyde, 2008). In 1960s, a new concept of bioclimatic design was introduced as a
process of design to ensure favourable microclimatic conditions for human
comfort by considering the disciplines of human physiology, climatology and
building physics (Olgyay, 1963; Bondars, 2013). This concept is using natural
energy sources and sinks; without the use of any electromechanical devices or
systems (Yeang, 2008; Hyde, 2000). Thus, it able to reduce the operating costs,
enhance building marketability, reduce potential liability from indoor air quality
problems and increase occupants’ performance and productivity (Tiyok, 2009).
In the long term, encourage sustainable development in the built environment by
helping alleviate the problems concerning the depletion of energy resources and
the deterioration of the environment (Li et al., 2013).
The effectiveness of bioclimatic design concept in providing comfortable
living space can be evaluated by using the Post-Occupancy Evaluation (PoE)
(Jamaludin et al., 2014a; Amole, 2009). PoE is defined as the process of
evaluating buildings in a systematic and rigorous manner after they have been
built and occupied for some time to understand the mutual interactions between
the building and users’ needs (Preiser, 1995). The PoE integrates the occupants’
behaviours, perceptions and opinions, and outlines the issues which will then be
monitored (Khalil et al., 2008).
The PoE is widely acknowledged but rarely practiced as there is a lack of
agreed-upon protocol, measures and procedures which make comparison difficult
(Meir et al., 2009). The implementation of PoE is frustrated by ownership,
liability, lack of knowledge and lack of progress (Hadjri & Crozier, 2009).
Additionally, the culture was also highlighted as a barrier to the PoE process
when the occupants may feel that moving into a new working environment is
disruptive enough (Riley et al., 2010). In Malaysia, the term PoE is still new while
the aspects of evaluating building performance are not widely emphasised
(Zakaria & Hamzah, 2007). There are no systematically collected data for various
types of building in Malaysia and most of the studies done previously tend to
focus on office buildings (Khalil & Nawawi, 2008; Khalil & Husin, 2009). In
other words, there are no specific studies were done on the residential building
with the bioclimatic design concept in the equatorial climate region.
The aim of this study is to analyse the residents’ satisfactions and
perceptions of an old residential college focusing on four performance indicators.
There are elements of internal courtyard, thermal comfort and indoor air quality,
day lighting and landscape, with regard to gender, race and ethnicity, as well as
the location of the room according to the floor levels. This residential building is
acknowledged as a residential college building with the efficient use of electricity
due to the best implementation of bioclimatic design concept, particularly day
PLANNING MALAYSIA
Sustainable Urban Development
147 © 2016 by MIP
lighting and natural ventilation (Jamaludin et al., 2013). Unfortunately, the
efficient use of electricity is not the ultimate victory of the building design when
the occupants are suffering with uncomfortable indoor surroundings, especially
in terms of thermal comfort and visual comfort (Jamaludin, 2014). Therefore, the
effects of the recent adoption of bioclimatic design concept in influencing the
residents’ comfort levels and the appropriateness of an old building to meet the
needs of contemporary life will be revealed subjectively through this PoE.
Indirectly, this will contribute to the establishment of PoE standard methods and
pragmatic models for multi-residential buildings in Malaysia. Additionally, it will
produce a set of results which is easy to compare with other studies in the future
in order to provide indications of improvement towards sustainable
transformation.
RESEARCH DESIGN AND APPROACHES
Building Description The residential college building is a multi-residential building, which provides
accommodation for university students. This building is also referred as a hostel
that contains leisure areas, lounges, meeting rooms and laundry facilities.
Dayasari Residential College (Dayasari RC) established in 1966 with
18,212.51m2 of total floor area. This residential college is low-rise, naturally
ventilated building and able to accommodate 847 residents at one time. The
location of this residential college is 3°07’39.0”N, 101°39’30.1”E and showed in
Figure 1.
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 148
Figure 1: The location of Dayasari RC in UM campus (University of Malaya, 2015).
The building arrangement is based on the internal courtyard arrangement
that encourages various implementations of bioclimatic design concept,
especially under the day lighting and natural ventilation conditions (Jamaludin et
al., 2011). The typical room’s floor area and volume are 16.35m2 and 45.78m3,
respectively. A typical elevation and floor plan of Dayasari RC is presented in
Figure 2.
PLANNING MALAYSIA
Sustainable Urban Development
149 © 2016 by MIP
Front isometric elevation Rear isometric elevation
Up
Down
Up
Down
CO
RR
IDO
R
STORE
BATHROOM
TOILET
WASH
ROOM
WARDEN UNIT
Kitchen
Bedroom 2
Master
Bedroom
Toilet
Reading
room
Living
room
BALCONY
ROOM
301
ROOM
304
ROOM
305
ROOM
306
ROOM
307
ROOM
308
ROOM
309
ROOM
310
ROOM
311
ROOM
312
ROOM
313
ROOM
314
ROOM
315
ROOM
316
ROOM
317
ROOM
318
ROOM
319
ROOM
302
ROOM
303
CORRIDOR
CORRIDOR
INTERNAL COURTYARD5
00
01
87
03
05
03
05
03
05
03
05
03
05
01
87
05
00
0
99
20
91
50
99
20
68
70
15
25
06
87
0
28
99
0
18802266226622661270340034003400340034003400
30600
1270860
Floor plan
Figure 2: Typical elevation and floor plan of the Dayasari RC building.
The building’s orientation to the sun path is north-south that reduces the
glare and the thermal effects inside the rooms. At the East-west orientation, there
are only service areas, such as toilets, bathrooms, stores, staircases and balconies.
The internal courtyard provides daylight and natural air in the corridor and
staircase area whereas inside the room daylight and natural air can be obtained
through the transom on top of the entrance door and the wall. Thus, lessening the
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 150
usage of the corridor lamp during daytime is difficult to achieve at other
residential college buildings with a linear arrangement of building layout
(Jamaludin et al., 2012). Consequently, Dayasari RC has among the lowest
Energy Efficiency Index (34.52 kWh/m2/year) compared to the other residential
colleges; which are in the range of 40 to 125 kWh/m2/year (Jamaludin et al.,
2013).
Dayasari RC was designed with glare protection and adjustable/fixed
opening options. There are two types of windows with tinted glasses, centre pivot
and awning. The window to wall ratio (WWR) is quite big, 0.66, while the
window area is 6.41m2. Subsequently, the operable window area is only 4.20m2
with 0.43 of operable WWR. The combination of operable window and transom
on top of the entrance door and the wall forms cross-flow/two-sided ventilation,
which encourages natural ventilation inside the room. In order to produce
significant shadow effects to the rooms, there are large horizontal overhangs
along the window in each room. These features are not available in the rooms on
the ground floors. As located next to UM Rimba Ilmu Botanical Garden, this
residential college is surrounded by a highly vegetated area with high plant
diversity (Jamaludin et al., 2014b). Most of the plants are well matured with huge
canopies that are capable of covering the ground. The plant composition also
shields the building from maximum sunlight penetration especially in the mid-
afternoon (Jamaludin et al., 2012; Al-Obaidi & Woods, 2006).
Post Occupancy Evaluation The study by Jamaludin et al. (2014a) on satisfactions and perceptions of
residents towards bioclimatic design concept at residential college building has
been adapted to restructure the questionnaires. The questionnaires have been
improved with the addition of several performance indicators. A number of
questions were also added to obtain a clearer picture of their satisfaction,
perception level of the residents and also the acceptance level towards the
implemented bioclimatic design concepts.
The questionnaires use a Likert Scale format where each number generally
responds to a specific scale as listed in below,
-2: very poor/not at all/very uncomfortable/much decreased/too dark/
very dissatisfied,
-1: poor/slightly/uncomfortable/decreased/dark/dissatisfied,
0: fair/moderate/neither/no changes,
+1: good/very/comfortable/increased/bright/satisfied,
+2: very good/extremely/very comfortable/much increased/too
bright/ very satisfied.
For thermal comfort, ASHRAE 7 point of the thermal sensation scale has
been adopted in the questionnaires (Singh et al., 2011). The scale ranges from -3
PLANNING MALAYSIA
Sustainable Urban Development
151 © 2016 by MIP
to +3 where, -3: cold, -2: cool, -1: slightly cool, 0: neutral, +1: slightly warm, +2:
warm, and +3: hot.
To understand the living behaviour of residents for sustaining the comfort
level of their room, a further survey was done by focusing on the usage pattern
of the windows and ceiling fan. The questionnaires were distributed to all
residents with the minimum number of feedbacks and with reliance on 95% of
the confident level and ±5% margin of error from the overall population at each
residential college. A simplified formula introduced by Yamane (1967) was used
to calculate the sample sizes,
n = N / 1 + N (e) 2
where, n is sample size, N is the population size and e is the level of precision. In
this study, the level of precision is 0.05.
The survey was carried out just before the academic session ended and the
long semester break was about to begin. Thus, the results obtained were more
accurate as residents have stayed for at least one semester or 14 weeks at the
residential college.
There are no changing seasons, which would have significantly affected the result
of the survey because Kuala Lumpur has a constant annual average of
temperature and humidity, 26.7°C and 83% respectively (Ahmad, 2008). Kuala
Lumpur is only affected by the northeast monsoon from October to March which
brings more rainfall (Malaysian Meteorological Department, 2015).
The statistical analyses that include the descriptive analysis were done by
using statistical computer software package. The analysis was extended by way
of comparing the percentage of respondents with regard to gender, as well as the
location of the room according to the floor levels.
RESULTS AND DISCUSSION
The results of the satisfaction and perception survey of residents at Dayasari RC
are presented in Table 1.
Table 1: The result of satisfaction and perception survey
The performance indicators
Likert scale /
Residents’ responses (%)
-2 -1 0 +1 +2
Internal
courtyard
1.The general room layout 1.5 7.5 27.2 50.2 13.6
2.The residential building layout 0.4 8.7 28.7 50.2 12.1
3.The adequacy of room in fulfil the needs 1.1 11.4 25.5 49.8 12.2
4.The overall quality of the residential building 1.1 6.0 28.7 52.1 12.1
5.The overall comfort level of the room 0.8 4.5 29.1 53.6 12.1
6.The influence of overall room conditions on the
degree of work productivity
0.8 4.5 26.8 49.4 18.5
7.The thermal comfort of the room 3.4 11.7 29.7 43.6 11.7
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 152
Thermal
comfort
and indoor
air quality
8.The ventilation & indoor air quality of the room 1.9 13.4 29.8 46.2 8.8
9.The ventilation control in the room 1.1 14.2 37.5 39.8 7.3
10.The provision of air movement in the room 3.1 17.6 39.3 31.7 8.4
Day
lighting
11.The adequacy of day lighting in the room 4.2 12.0 34.4 40.9 8.5
12.The day lighting control in the room 1.5 9.5 37.4 42.4 9.2
13.The overall quality of day lighting in the room 1.5 7.7 28.8 48.5 13.5
14.The view out of the room from the inside 0.4 11.1 30.3 39.8 18.4
15.The windows/opening area of the room 0.4 8.0 30.5 45.8 15.3
Landscape
features
16.The landscape quality at Dayasari RC areas 1.5 8.0 33.7 48.7 8.0
17.The landscape quality in the internal courtyard 1.5 6.1 35.9 48.9 7.6
18.The influence of landscape on the quality life 0.8 7.3 30.2 47.7 14.1
According to the percentages, the majority of respondents were
experiencing a satisfactory level of comfort in all performance indicators, except
for the provision of air movement under the thermal comfort and indoor air
quality elements. About 50.2% of respondents claimed that the general room and
residential building layout which is the internal courtyard with open corridor were
‘good’. Meanwhile, 49.8% agreed that the rooms ‘had fulfilled their needs very
much. The majority of the residents, which were represented by 52.1% felt ‘good’
about the overall quality of the residential building and 53.6% of them were
‘comfortable’ with the overall condition of the room. Consequently, 49.4%
claimed that the degree of work productivity had ‘increased’ considerably.
Under the thermal comfort and indoor air quality elements, the majority of
respondents felt ‘good’ with all indicators, which are the thermal comfort in the
room (43.6%) and the ventilation and air quality in the room (46.2%). A smaller
number of people or only around 39.8% had given good words about the control
of the ventilation in the room. For the provision of air movement in the room,
about 39.3% representing the majority voted for ‘neither’. Hence, we noted that
59.7% of respondents were highly reliant on the ceiling fan at the highest speed
of five (50.2%), rather than natural ventilation through the opening of windows
in order to promote air circulation and movement inside the room, as presented
in Table 2.
Further survey on the usage pattern of windows and ceiling fans at
Dayasari RC revealed that the ‘monkey’ (38%) became the main reason for the
residents to not open the windows, which was then followed by ‘privacy’
(20.5%), ‘safety’ (16.1%), ‘dust’ (9.8%), ‘rain’ (6.3%), ‘others’ (5.9%) and
‘insect’ (3.4%). However, some of the residents are still keeping the windows
‘frequently’ open (30.4%) especially in the ‘morning’ (27.6%). Comparatively,
the insects were the main reason why residents did not open the windows of
residential buildings in the hot-humid climate of Malaysia (Kubota et al., 2009).
Regarding the day lighting aspects, the majority of respondents (48.5%)
were ‘satisfied’ with the overall quality of day lighting in the room. They claimed
that the adequacy of day lighting in the room was ‘bright’ (40.9%) with a ‘good’
PLANNING MALAYSIA
Sustainable Urban Development
153 © 2016 by MIP
control (42.4%). The existing windows/opening area of the room was ‘good’
(45.8%) which was indirectly able to give a ‘good’ view (39.8%) out of the room
from the inside.
Table 2: The usage pattern of windows and ceiling fan
Residents’ responses (%)
The frequency of ceiling
fan usage in a day
Never Rarely Sometimes Frequently Every
time
0.4 3.1 10.9 26.0 59.7
The fan speed is often
used
One Two Three Four Five
0.4 2.7 17.1 29.6 50.2
The frequency of the
windows is kept open in
a day
Never Rarely Sometimes Frequently Every
time
18.3 14.8 21.0 30.4 15.6
The time of windows
has been always open in
a day
Never Morning Afternoon Evening Night
25.4 27.6 16.8 19.0 11.2
The reason for not
opening the windows
Insect Safety Rain Dust Privacy Monkey Others
3.4 16.1 6.3 9.8 20.5 38.0 5.9
The quality of landscape setting at both residential college area and the
internal courtyard area was ‘good’ with 48.7% and 48.9% of total respondents,
respectively. About 47.7% of respondents claimed that the landscape setting in
both areas was ‘very’ influential to the life quality. The advantage of the internal
courtyard in promoting day lighting and natural ventilation would not be denied
as the presence of a landscape with green trees provides better environment than
the open sky (Monteiro & Alucci, 2009) and they improve the room and building
conditions even when receiving direct heat radiation and penetration from the
worst orientations for the equatorial region; east and west (Jughans, 2008). The
tree canopies have significant filtration capabilities which contribute to the
reduction of terrestrial radiation, cooling the ground surfaces by capturing more
latent heat, reducing air temperature by promoting more evapotranspiration, and
effectively improve the outdoor thermal comfort, especially in open spaces of the
tropical climate region (Shahidan et al., 2010). It also indirectly affects the indoor
temperature and the cooling load of the building through shading and insulation
effects (Yeang, 2008). Moreover, the vegetation-integrated buildings are more
liked, aesthetically pleasing, and restorative than the houses without vegetation
(White & Gatersleben, 2011).
Regarding thermal comfort elements, a detailed survey has been done by
adopting thermal sensation votes on ASHRAE 7 point sensation scale, which
ranges from -3 to +3. The majority of the respondents, 39.3% claimed to have
been feeling ‘neutral’, as presented in Table 3.
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 154
Table 3: Thermal sensation votes
ASHRAE 7 point sensation scale / Residents’ responses (%)
-3
Cold
-2
Cool
-1
Slightly cool
0
Neutral
+1
Slightly warm
+2
Warm
+3
Hot
0.4 7.0 8.7 39.3 25.2 16.5 2.9
Further statistical analysis was done by comparing the percentage of
respondents with regard to gender. There were not many different responses
between genders when comparing all elements simultaneously, except for their
responses on the landscape elements. The majority of female respondents rated
the internal courtyard as ‘very’ influential on their quality of life, while the male
rated it as ‘moderate’. This is in the line with Karjalainen (2007) and Parsons
(2002), who claimed that the differences in the responses of male and female;
especially in terms of thermal comfort, were generally small.
CONCLUSIONS
The majority of the respondents are at a comfort level in all performance
indicators of internal courtyard, thermal comfort and indoor air quality, day
lighting and landscape features, which indirectly increase the degree of work
productivity. Therefore, the bioclimatic design concept at an old residential
building is still appropriate to meet the needs of contemporary life. Furthermore,
the concept can increase the efficiency of electricity usage without suffering the
occupants with uncomfortable indoor surroundings, especially concerning
thermal comfort and visual comfort. However, there is still room for
improvement, especially on the provision of air movement in the room when the
majority of the residents rated one notch lower as compared to the other
indicators.
The location of the room, rather than the gender aspect considerably
influences the satisfaction and the perception level of respondents. Different
responses gave by the residents according to the floor levels. These aspects should
be highly considered in implementing the improvement measures to ensure the
comfort standards of the room towards sustainable transformation, especially in
urban area. The internal courtyard should be fully optimised while trees in the
landscape; either in the internal courtyard or surrounding residential buildings,
must appropriately be designed to meet sufficient daylight and ventilation
requirements.
In future research, it is necessary to combine both subjective and objective
evaluations through field measurement with specific equipment to have an
accurate result in the survey. The combination of these assessments will be able
to provide more comprehensive results for the issues investigated.
PLANNING MALAYSIA
Sustainable Urban Development
155 © 2016 by MIP
ACKNOWLEDGEMENTS
The authors would like to thank Dayasari Residential Colleges at the University
of Malaya campus for their permission to carry out the Post Occupancy
Evaluation. This work was conducted as part of the fulfilment of the requirements
for the degree of Doctor of Philosophy and financially supported by the Institut
Pengurusan dan Pemantauan Penyelidikan (IPPP), University of Malaya under
PPP Grant (PV063/2011A).
REFERENCES Ahmad, S.A. (2008). Kuala Lumpur: A hot humid climate. In R. Hyde (Ed) Bioclimatic
Housing: Innovative Designs for Warm Climates, (269-293). UK: Earthscan.
Al-Obaidi, M.A.A.H. & Woods, P. (2006). Investigations on effect of the orientation on
thermal comfort in terraced housing in Malaysia. International Journal of Low
Carbon Technologies, 1, 168-176.
Amole, D. (2009). Residential satisfaction in students’ housing. Journal of Environmental
Psychology, 29, 76-85.
Bondars, E. (2013). Implementing bioclimatic design in sustainable architectural practice.
Architeture and Urban Planning, 7, 84-86.
Hadjri, K. & Crozier, C. (2009). Post-occupancy evaluation: Purpose, benefits and barriers.
Facilities, 27, 21-33.
Hyde, R. (2000). Climate responsive design: A study of buildings in moderate and hot humid
climates. New York: Taylor & Francis.
Hyde, R. (2008). Bioclimatic housing: Innovative designs for warm climates. UK: Earthscan.
Jamaludin, A.A. (2014). Performance of bioclimatic design strategies at residential buildings
in University of Malaya. Unpublished Ph.D. Thesis. Kuala Lumpur, Malaysia:
University of Malaya.
Jamaludin, A.A., Inangda, N., Ariffin, A.R.M. & Hussein, H. (2012). Energy performance: A
comparison of four different multi-residential building designs and forms in the
equatorial region. International Journal of Renewable Energy Resources, 2, 13-22.
Jamaludin, A.A., Inangda, N., Ariffin, A.R.M. & Hussein, H. (2011). Energy performance of
three residential college buildings in University of Malaya campus, Kuala Lumpur.
Journal of Design and Built Environment, 9, 59-73.
Jamaludin, A.A., Keumala, N., Ariffin, A.R.M. & Hussein, H. (2014a). Satisfaction and
perception of residents towards bioclimatic design strategies: Residential college
buildings. Indoor and Built Environment, 23, 933-945.
Jamaludin, A.A., Keumala, N., Ariffin, A.R.M. & Hussein, H. (2014b). Landscape and
sustainability: Three residential college buildings in the tropics. Open House
International, 39, 92-106.
Jamaludin, A.A., Mahmood, N.Z., Keumala, N.I., Ariffin, A.R.M. & Hussein, H. (2013).
Energy audit and prospective energy conservation: Studies at residential college
buildings in a tropical region. Facilities, 31, 158-172.
Jughans, L. (2008). Design, elements and strategies: Daylighting. In R. Hyde (Ed) Bioclimatic
Housing: Innovative Designs for Warm Climates, (297- ). UK: Earthscan.
Karjalainen, S. (2007). Gender differences in thermal comfort and use of thermostats in
everyday thermal environment. Building and Environment, 42, 1594-1603.
Khalil, N. & Nawawi, A.H. (2008). Performance analysis of government and public buildings
via post occupancy evaluation. Asian Social Science, 4, 103-112.
Adi Ainurzaman Jamaludin, Hazreena Hussein, Nila Keumala, Ati Rosemary Mohd Ariffin
Preference of Student Residents Towards Sustainable – Energy Efficient Building with Bioclimatic Design Strategies
© 2016 by MIP 156
Khalil, N. & Husin, H.N. (2009). Post occupancy towards indoor environment improvement
in Malaysia’s office buildings. Journal of Sustainable Development, 2, 186-191.
Khalil, N., Husin, H.N., Nawawi, A.H. & Hashim, A.E. (2008). Post occupancy evaluation for
performance evaluation of building facilities in higher education buildings.
Proceedings of the 9th International Conference SENVAR & 2nd ISESEE 2008, 1-3
December 2008, University Teknologi MARA, Malaysia.
Kubota, T., Chyee, D.T.H. & Ahmad, S. (2009). The effects of night ventilation technique on
indoor thermal environment for residential buildings in hot-humid climate of
Malaysia. Energy and Buildings, 41, 829-839.
Li, D.H., Yang, L. & Lam, J.C. (2013). Zero energy buildings and sustainable development
implications – A review. Energy, 54, 1-10.
Malaysian Meteorological Department. (2015). Monthly Weather Bulletin.
http://www.met.gov.my/index.php?option=com_content&task=view&id=846&Ite
mid=1586 (retrieved date: January 16, 2015).
Meir, I.A., Garb, Y., Jiao, D. & Cicelsky, A. (2009). Post-occupancy evaluation: An inevitable
step toward sustainability. Advances in Building Energy Research, 3, 189-219.
Monteiro, L.M. & Alucci, M.P. (2009). The impact of vegetation on outdoor thermal comfort
in urban spaces. Proceedings of the 7th International Conference on Urban Climate,
29 June – 3 July 2009, Yokohama, Japan.
Olgyay, V. (1963). Design with climate: Bioclimatic approach to architectural regionalism.
Princeton, NJ: Princeton University Press.
Parsons, K.C. (2002). The effects of gender, acclimation state, the opportunity to adjust
clothing and physical disability on requirements for thermal comfort. Energy and
Buildings, 34, 593-599.
Preiser, W.F.E. (1995). Post-occupancy evaluation: How to make buildings work better.
Facilities, 13, 19-28.
Riley, M., Kokkarinen, N. & Pitt, M. (2010). Assessing post occupancy evaluation in higher
education facilities. Journal of Facilities Management, 8, 202-213.
Shahidan, M.F., Shariff, M.K.M., Jones, P., Salleh, E. & Abdullah, A.M. (2010). A
comparison of Mesua ferreaL. and Hura crepitansL. for shade creation and radiation
modification in improving thermal comfort. Landscape and Urban Planning, 97,
168-181.
Singh, M.K., Mahapatra, S. & Atreya. S.K. (2011). Adaptive thermal comfort model for
different climatic zones of North-East India. Applied Energy, 88, 2420-2428.
Tiyok, P. (2009). Towards Indonesia’s Sustainable future: Green building council Indonesia.
FuturArc, 14, 116-119.
University of Malaya. (2015). Campus Map. https://www.um.edu.my/about-um/contact-
us/campus-map (retrieved date: February 2, 2016)
White, E.V. & Gatersleben, B. (2011). Greenery on residential buildings: Does it affect
preferences and perceptions of beauty? Journal of Environmental Psychology, 31,
89-98.
Yamane, T. (1967). Statistic, an Introductory Analysis. New York: Harper & Row.
Yeang, K. (2008). Ecodesign: A Manual for Ecological Design. London, UK: John Wiley &
Son Ltd.
Zakaria, A. & Hamzah, S. (2007, August 14). Sektor awam perlu bantu. Berita Harian, p. 3.